BESTARSENSOR Multilayer Piezoelectric Ceramic BPM-F0101T1.25-L62-SU-L3-HF
| Capacitance 1 kHz, 1V | 75±15% nF |
| Dielectric loss | ≤0.05 |
| Resonant impedance | ≤100 Ω |
| Insulation resistance | ≥100MΩ |
| Operating temperature | -25~+65°C |
| Storage temperature | -40~+85°C |
Features:
● Large travel/high speed
● Ultra-thin design
● Fast response time
● Low power consumption/no electromagnetic interference
Description
The BPM-F0101T1.25-L62-SU-L3-HF is an advanced version of piezoelectric ceramic for applications requiring large travel range, fast movement and high resolution control. It relies on high quality piezoelectric ceramics in the multilayer form that provide high speed and accuracy displacement that all translates into an ultra thin compact design. Its low energy usage and excellent conversion efficiency make it suitable for systems that require both high performance and energy savings.
This element has an innovative multilayer structure that allows the device to have a fast response and stable motion under low driving voltages. Its fast actuation capability guarantees smooth and accurate control capabilities even at high frequency operations. The device is silent and does not emit any electromagnetic interference, so it is suitable for sensitive areas such as optical equipment, precision measuring equipment and medical equipment.
The piezoelectric ceramic element consists of mechanical durability and excellent stability to bring out long staying power in ongoing operation. The plate structure helps generate awesome uniform motion and high linearity ensuring reliable performance over a long period of time. With its extremely thin profile and lightweight construction, it can easily be incorporated into small devices or embedded into concealed spaces without disrupting the overall system layout.
Piezoelectric ceramics such as the BPM-F0101T1.25-L62-SU-L3-HF are especially widely used in micro-positioning systems, vibration control, ultrasonic and other advanced motion modules. Its high response speed, large stroke and low power consumption are the key factors making it the top choice for next-generation precision technologies.
